Magic Wavelength Measurement of the 87Sr Optical Lattice Clock at NIM

We report on the magic wavelength measurement of our optical lattice clock based on fermion strontium atoms at the National Institute of Metrology (NIM). A Ti:sapphire solid state laser locked to a reference cavity inside a temperature-stabilized vacuum chamber is employed to generate the optical la...

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Veröffentlicht in:中国物理快报:英文版 2016 (10), p.45-48
1. Verfasser: 王强 林弋戈 孟飞 李烨 林百科 臧二军 李天初 方占军
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creator 王强 林弋戈 孟飞 李烨 林百科 臧二军 李天初 方占军
description We report on the magic wavelength measurement of our optical lattice clock based on fermion strontium atoms at the National Institute of Metrology (NIM). A Ti:sapphire solid state laser locked to a reference cavity inside a temperature-stabilized vacuum chamber is employed to generate the optical lattice. The laser frequency is measured by an erbium fiber frequency comb. The trap depth is modulated by varying the lattice laser power via an acousto-optic modulator. We obtain the frequency shift coefficient at this lattice wavelength by measuring the diffbrential frequency shift of the clock transition of the strontium atoms at different trap depths, and the frequency shift coefficient at this lattice wavelength is obtained. We measure the frequency shift coefficients at different lattice frequencies around the magic wavelength and linearly fit the measurement data, and the magic wavelength is calculated to be 368554672(44)MHz.
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subjects NIM
中国计量科学研究院
光晶格
固态激光
波长测量
激光频率
陷阱深度
魔术
title Magic Wavelength Measurement of the 87Sr Optical Lattice Clock at NIM
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